Rotatable drum and method and system using the same for the automated production of e-vapor devices

ABSTRACT

A rotating drum for use in manufacturing vapor-generating articles may include a drum body. A plurality of grooves may be disposed in an outer face of the drum body. A seat may be tractably-mounted in each one of the plurality of grooves. The seat may include a seat groove that is structured and arranged to receive and hold a rigid casing of a vapor-generating article. The seat may be composed of a material that is softer than a material of the rigid casing.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation under 35 U.S.C. § 120 of U.S.application Ser. No. 14/686,519, filed Apr. 14, 2015, which claimspriority under 35 U.S.C. § 119(e) to U.S. Provisional Application No.61/979,330, filed Apr. 14, 2014, the entire contents of each of whichare incorporated herein by reference.

BACKGROUND Field

This disclosure relates generally to systems and methods formanufacturing vapor-generating articles and, more particularly, tosystems and methods for manufacturing electronic vapor devices.

Description of the Related Art

Electronic vapor-generating articles may be manufactured via a number ofmanual operations. However, such operations are not only labor intensiveand time consuming but also more prone to inconsistency.

SUMMARY

Some example embodiments described herein are directed to automatedprocesses for use in the manufacture of electronic vapor-generatingarticles, including electronic vapor devices. Some example embodimentsare directed to using rotating drums to carry partially completeelectronic vapor devices during the assembly operations associated withthe manufacture of electronic vapor devices, and to using rotating drumsto move the partially complete electronic vapor devices between theassembly operations at workstations in an automated fashion. Someexample embodiments are directed to a soft drum for use in manufacturingelectronic vapor devices. The soft drum may include a rotating drumhaving a cylindrical drum surface with resilient contact surfaces tohold electronic vapor devices. The soft drum may be used to holdelectronic vapor devices during various assembly operations and may alsobe used in drum-to-drum transfer of components or finished devices in anautomated system for manufacturing the electronic vapor devices. Someexample embodiments described herein are directed to automatedmanufacturing of electronic vapor-generating articles, such aselectronic vapor devices, articles, apparatuses, instruments, and otherforms regardless of their size and shape.

In accordance with example embodiments disclosed herein, there is arotating drum for use in manufacturing vapor-generating articles. In anexample embodiment, a rotatable drum for automated manufacturing ofe-vapor devices may include a drum body including a roll face bounded byopposing end faces, the roll face defining a plurality of pocketstherein; and a first seat structure tractably-mounted in each of theplurality of pockets of the drum body, the first seat structureincluding a first outer surface and an opposing first inner surface, thefirst outer surface defining a first groove therein and facing outwardfrom the drum body, the first groove configured to receive and hold afirst casing of the e-vapor devices, the first seat structure includinga material that is more structurally yielding than a material of thefirst casing of the e-vapor devices.

According to another example embodiment, the rotating drum may include adrum body; a plurality of grooves in an outer face of the drum body; anda respective seat in each one of the plurality of grooves. The seatincludes a seat groove that is structured and arranged to receive andhold a rigid casing of a vapor-generating article. The seat is composedof a material that is softer than a material of the rigid casing.

According to another example embodiment, there is a system used inmanufacturing vapor-generating articles. The system includes a drumincluding a drum body, a plurality of grooves in an outer face of thedrum body, and a respective seat in each one of the plurality ofgrooves, wherein each said seat includes a seat groove that isstructured and arranged to receive and hold a casing of avapor-generating article. The system also includes a tagging system thatis structured and arranged to attach a label to a respective said casingheld in a respective said seat. The system additionally includes awrapping system that is structured and arranged to wrap the label aroundthe respective said casing.

According to another example embodiment, there is a method ofmanufacturing vapor-generating articles. The method may includereceiving and holding a casing of a vapor-generating article in a seatin a groove of a rotating drum; tagging a label to the casing while thecasing is held in the seat; and wrapping the label around the casing.

BRIEF DESCRIPTION OF THE DRAWINGS

Various aspects are further described in the detailed description whichfollows, in reference to the noted plurality of drawings by way ofnon-limiting examples of embodiments, in which like reference numeralsrepresent similar parts throughout the several views of the drawings.

FIGS. 1a, 1b, 1c, and 1d show electronic vapor devices in accordancewith an example embodiment;

FIG. 2a is a block diagram of a process for automated assembly ofelectronic vapor devices in accordance with an example embodiment;

FIGS. 2b-2d show aspects of systems and methods for the automatedmanufacture of electronic vapor devices using rotating drums inaccordance with an example embodiment;

FIG. 3 shows aspects of an automated system for applying a label to anelectronic vapor device in accordance with an example embodiment;

FIGS. 4 and 5 show aspects of a drum in accordance with an exampleembodiment;

FIGS. 6 and 7 a show aspects of applying a label to an electronic vapordevice in accordance with an example embodiment; and

FIGS. 7b , 8, and 9 show aspects of drums in accordance with an exampleembodiment.

DETAILED DESCRIPTION

Various aspects will now be described with reference to specific formsselected for purposes of illustration. It will be appreciated that thespirit and scope of the apparatus, system and methods disclosed hereinare not limited to the selected forms. Moreover, it is to be noted thatthe figures provided herein are not drawn to any particular proportionor scale, and that many variations can be made to the illustrated forms.Reference is now made to FIGS. 1-9, wherein like numerals are used todesignate like elements throughout.

Each of the following terms written in singular grammatical form: “a,”“an,” and “the,” as used herein, may also refer to, and encompass, aplurality of the stated entity or object, unless otherwise specificallydefined or stated herein, or, unless the context clearly dictatesotherwise. For example, the phrases “a device,” “an assembly,” “amechanism,” “a component,” and “an element,” as used herein, may alsorefer to, and encompass, a plurality of devices, a plurality ofassemblies, a plurality of mechanisms, a plurality of components, and aplurality of elements, respectively.

Each of the following terms: “includes,” “including,” “has,” “having,”“comprises,” and “comprising,” and, their linguistic or grammaticalvariants, derivatives, and/or conjugates, as used herein, means“including, but not limited to.”

Throughout the illustrative description, the examples, and the appendedclaims, a numerical value of a parameter, feature, object, or dimension,may be stated or described in terms of a numerical range format. It isto be fully understood that the stated numerical range format isprovided for illustrating implementation of the forms disclosed herein,and is not to be understood or construed as inflexibly limiting thescope of the forms disclosed herein.

Moreover, for stating or describing a numerical range, the phrase “in arange of between about a first numerical value and about a secondnumerical value,” is considered equivalent to, and means the same as,the phrase “in a range of from about a first numerical value to about asecond numerical value,” and, thus, the two equivalently meaning phrasesmay be used interchangeably.

It is to be understood that the various forms disclosed herein are notlimited in their application to the details of the order or sequence,and number, of steps or procedures, and sub-steps or sub-procedures, ofoperation or implementation of forms of the method or to the details oftype, composition, construction, arrangement, order and number of thesystem, system sub-units, devices, assemblies, sub-assemblies,mechanisms, structures, components, elements, and configurations, and,peripheral equipment, utilities, accessories, and materials of forms ofthe system, set forth in the following illustrative description,accompanying drawings, and examples, unless otherwise specificallystated herein. The apparatus, systems, and methods disclosed herein canbe practiced or implemented according to various other alternative formsand in various other alternative ways.

It is also to be understood that all technical and scientific words,terms, and/or phrases, used herein throughout the present disclosurehave either the identical or similar meaning as commonly understood byone of ordinary skill in the art, unless otherwise specifically definedor stated herein. Phraseology, terminology, and, notation, employedherein throughout the present disclosure are for the purpose ofdescription and should not be regarded as limiting.

Aspects described herein are directed to a soft drum for use inmanufacturing electronic vapor devices. Although example embodiments aredescribed with reference to electronic vapor devices, it is understoodthat aspects described herein may be used with similar devices,articles, apparatuses, instruments, and utensils. The soft drumdescribed herein may include a resilient cylindrical drum surface withgrooves to hold electronic vapor devices securely and to transfer thedevices among various assembly operations. In example embodiments, theresiliency of the drum surface is provided by at least one of a surfacematerial of the drum being relatively softer than a surface material ofthe electronic vapor device and a portion of the drum being moveable inan axial direction of the drum. In this manner, example embodiments areuseful for carrying and transferring electronic vapor devices duringmanufacturing operations.

Electronic Vapor Device Layout

Referring to FIGS. 1a and 1b , an electronic vapor device (article) 60is provided and comprises a replaceable cartridge (or first section) 70and a reusable fixture (or second section) 72, which are coupledtogether at a threaded connection 205 or by other convenience such as asnug-fit, detent, clamp, and/or clasp. Generally, the second section 72includes a puff sensor responsive to air drawn into the second section72 via an air inlet port 45 adjacent the free end or tip of theelectronic vapor device 60, a battery, and control circuitry. Thedisposable first section 70 includes a liquid supply region and a heaterthat vaporizes liquid that is drawn from the liquid supply regionthrough a wick. In an example embodiment, the first section 70 is acartomizer section and includes an outer casing 6 that houses the liquidsupply region, heater, and wick. Upon completing the threaded connection205, the battery of the second section 72 is connectable with theelectrical heater of the first section 70 upon actuation of the puffsensor. Air is drawn primarily into the first section 70 through one ormore air inlets 44 during drawing action upon the mouth end of the firstsection 70. The drawing action is communicated to a puff sensor in thesecond section 72, which causes the battery-powered heater to vaporizesome of the liquid from the liquid supply region. The vaporized liquidis entrained in the air that is drawn in through the one or more airinlets 44 and delivered to the mouth of the user via one or more portsat the mouth end of the first section 70. As shown in FIG. 1d , the oneor more air inlets 44′ may be located at a structure associated with thethreaded connection 205, including but not limited to a connector ringbetween the first section 70 and the second section 72.

In an example embodiment, once the liquid of the cartridge is spent,only the first section 70 is replaced. An alternate arrangement shown inFIG. 1c includes an implementation in which the first section 70 and thesecond section 72 are integrally attached, such that the entire article60 is disposed once the liquid supply is depleted. In such case, thebattery type and other features might be engineered for simplicity andcost-effectiveness, but generally embodies the same concepts as in anexample embodiment in which the second section is reused and/orrecharged.

In an example embodiment, the electronic vapor device 60 may be about 80mm to about 110 mm long (e.g., about 80 mm to about 100 mm long) andabout 7 mm to about 10 mm or more in diameter. For example, theelectronic vapor device is about 84 mm long and has a diameter of about7.8 mm. Implementations are not limited to these dimensions, and aspectsdescribed herein may be adapted for use with any size electronic vapingarticle.

At least one adhesive-backed label may be applied to the outer casing 6of the first section 70. The label completely circumscribes theelectronic vapor device 60 and can be colored and/or textured. The labelcan include holes therein which are sized and positioned so as toprevent blocking of the air inlets 44.

The outer casing 6 may be formed of any suitable material or combinationof materials. Examples of suitable materials include metals, alloys,plastics, paper, fiberglass (including woven fiberglass) or compositematerials containing one or more of those materials, or thermoplasticsthat are suitable for food or pharmaceutical applications, for examplepolypropylene, polyetheretherketone (PEEK), ceramic, and polyethylene.The material may be light and non-brittle. In an example implementation,the outer casing 6 is composed of metal (e.g., aluminum or aluminumalloy).

Automated Manufacture Using Rotating Drums

FIGS. 2a-2d and 3 show aspects of systems and methods for the automatedmanufacture of vapor-generating articles (such as, by way of example,electronic vapor devices) using rotating drums in accordance herewith.Aspects of FIGS. 2a-2d and 3 are described with respect to automatedmanufacturing processes associated with the first section 70 (alsoreferred to herein as a cartridge unit 70) of an electronic vapor device60. The systems and methods described herein are not limited to use withthe first section 70, however, and instead may be used with automatedmanufacturing processes associated with a second section 72 (e.g., abattery section) and/or a combined article including a connected firstsection 70 and second section 72.

FIG. 2a is a block diagram of a process for automated assembly ofelectronic vapor devices in accordance with an example embodiment. Theprocess may include assembling and delivering open-ended,partially-assembled cartridge units 70 (step 10); establishing aprocession of the open-ended, partially-assembled cartridge units 70(step 11); adding liquid to the liquid supply region of the cartridgeunits 70 (step 12); inserting a respective downstream gasket into eachof the cartridge units 70 (step 13); inserting a respective mouth endinsert into each of the cartridge units 70 (step 14); applying arespective label to the outer casing of each of the cartridge units 70(step 15); and connecting a respective battery section (i.e., secondsection 72) to each of the cartridge units 70 (step 16). In aspects, theprocesses performed at steps 11-16 are automated, e.g., usingcomputer-controlled manufacturing machinery. In additional aspects, thecartridge units 70 are handled and transported during and between steps11-16 in an automated manner, e.g., using rotating drums as describedherein. In even further aspects, one or more inspection processes isperformed after each one of steps 11-16, e.g., to detect cartridge units70 that are out of specification. The method is not limited to theparticular steps 10-16; instead, more or less steps and/or differentsteps and/or a different order of steps may be used.

FIGS. 2b-2d depict drum-to-drum transfer systems and methods that may beused with aspects of automated assembly of electronic vapor devices inaccordance herewith. Aspects shown in FIGS. 2b-2d may be used in thehandling and transporting of cartridge units 70 during and between steps11-16 described with respect to FIG. 2a , for example. As shown in FIG.2b , a procession of a plurality of cartridge units 70 (shownindividually as solid circles) may be carried by a plurality of rotatingdrums 20-24 to work stations 26, 27 where manufacturing/assemblyprocesses are performed on the cartridge units 70. In aspects, the workstations 26, 27 may correspond to any of steps 11-16. In but oneexample, work station 26 may include machinery configured to insert arespective downstream gasket into each of the cartridge units 70, andwork station 27 may include machinery configured to insert a respectivemouth end insert into each of the cartridge units 70. Although only twowork stations 26, 27 are shown for simplicity, it is understood thatrotating drums similar to drums 20-24 may be used to carry cartridgeunits 70 to other work stations during the automated manufacture ofelectronic vapor devices.

In example embodiments, each drum 20-24 may include a cylindrical bodywith a plurality of grooves (also called flutes) spaced apart on itsroll face. Each flute may be structured and arranged to hold and carry asection of an electronic vapor device, such as a cartridge unit 70. Asdescribed in greater detail with respect to FIGS. 2c and 2d , each flutemay include a resilient (e.g., yieldable) material that directlycontacts the cartridge unit 70 when the cartridge unit 70 is held in theflute and carried by the rotating drum.

Still referring to FIG. 2b , each drum 20-24 may include a vacuum systemthat selectively applies a vacuum force to the flutes to assist inholding the cartridge units 70 in the flutes during rotation of thedrum. For example, the system may be adapted such that during rotationof the drums 20-24, flutes that are located in shaded areas 30 areprovided with a vacuum force, while flutes that are located in unshadedareas 31 are not provided with the vacuum force. Specifically, aparticular flute on counterclockwise rotating drum 20 is provided withthe vacuum force when the flute is moving through the shaded area 30,and is not provided with the vacuum force when the flute is movingthrough the unshaded area 31. The vacuum force may be selectivelyapplied to each flute on each drum individually, such as via a vacuumport in each flute and a vacuum source internal to the drum thatselectively applies a vacuum force to the vacuum port in a particularflute based on the angular position of the particular flute along therotational path of the roll face of the drum.

Rails 32 may also be provided adjacent to one or more of the drums 20-24to assist in maintaining the cartridge units 70 in the flutes. Further,cleaning air may be communicated to the port(s) of each flute at angularpositions such as that indicated by area 33. The cleaning air may beselectively applied to each flute individually.

In aspects, when transferring a cartridge unit 70 from a donating fluteof a first drum to a receiving flute of a second drum, e.g., from drum20 to drum 21, a vacuum force is deactivated at the donating flute whenthe donating flute is at a location prior to the nip 35 between thefirst drum and the second drum. Also, a vacuum force is activated at thereceiving flute when the receiving flute is at a location prior to thenip 35 between the first drum and the second drum. This coordination ofthe timing of the respective vacuum forces applied at the donating fluteand the receiving flute is depicted by shaded areas 30 and unshadedareas 31 in FIG. 2b and facilitates moving the cartridge unit 70 out ofthe donating flute and into the receiving flute.

With continued reference to FIG. 2b , the system may include acontroller “C” that is operatively connected to one or more elements. Asdescribed herein, the controller “C” may be a computer-based controllerthat employs hardware and software to perform automated controlprocesses. For example, the controller “C” may be operatively connectedto one or more detectors 40 for the purpose of inspecting and/ortracking cartridge units 70 during the automated manufacturing. Thedetectors 40 may comprise cameras or other optical detecting mechanismsthat detect optical characteristics and/or information of the cartridgeunits 70 and transmit the detected optical characteristics and/orinformation to the controller “C.”

For inspection purposes, the controller “C” may determine whether acartridge unit 70 is out of specification, e.g., not properly assembled,damaged, etc., by comparing the detected optical characteristics topredefined optical criteria. Any cartridge unit 70 that is determined tobe out of specification based on the detecting may be ejected from oneof the rotating drums, e.g., by selectively disabling the vacuum of aflute carrying the out of specification cartridge unit and/or applying ajet of air to the flute, e.g., as indicated at location 41, to eject thecartridge unit 70 from the flute. It is envisioned that an inspectionstation may be located downstream of the ejection station 41, to confirmproper operation of the ejection station 41. The controller “C” may beprogrammed to track any empty flute position resulting from an ejection,and to track the empty flute position through the system (e.g., theentire system or to the next downstream workstation).

Alternatively or in addition, for tracking purposes, each cartridge unit70 may be encoded with information such as date of manufacture, uniquetracking identification, authentication, lot number, facilityidentification, and model number. More specifically, the individualcartridge units 70 may be printed with indicia that provide suchinformation. The detectors 40 may include a device, such as a camera orbar code reader, which reads the encoded information on each of thecartridge units as the cartridge units are moved by the drums 20-24. Thecontroller “C” may be programmed to track the position of each cartridgeunit 70 in the system based on the encoded information detected by thedetectors 40.

As depicted in FIG. 2b , the controller “C” may also be operativelyconnected to the drums 20-24, for example, to control the rotationalspeed of each drum. The controller “C” may also be operatively connectedto the work stations 26, 27, for example, to control aspects of theautomated processes that are performed at the stations.

FIGS. 2c and 2d show example aspects of the flutes and drums asdescribed herein. In example embodiments, the flutes 50 that receive andcarry the cartridge units 70 are embodied as grooves or channels at theouter surface (e.g., roll face) of the rotating drums (e.g., drums20-24). As shown in FIG. 2c , in aspects herein, the longitudinal axisof the cartridge unit 70 is transverse to the direction of rotation ofthe drum when the cartridge unit 70 is seated in the flute 50. Eachflute 50 may include at least one port 52 that is in communication witha vacuum/pressure source of the drum. Depending on the angular locationof the flute 50 along the rotational path of the drum, thevacuum/pressure source of the drum may selectively apply a vacuum, anair jet, or no force at the port 52, e.g., as described with respect toareas 30, 31, and 33 of FIG. 2 b.

As shown in the magnified portion 53 of FIG. 2c , there is a clearance54 between the roll surfaces of the respective drums (e.g., drums 20 and21) at the nip 35 between the drums. For example, when the cartridgeunit 70 has an outside diameter of about 7.8 mm, the clearance 54 may beabout 0.5 mm to about 1 mm, although any suitable dimension of clearancemay be used.

As shown in FIG. 2d , the surface of each flute 50 may be coated orcovered with a resilient (e.g., yieldable) material 55. An opening 56 inthe resilient material 55 aligns with the port 52 such that vacuum or anair jet may be applied to the flute via the port 52 and opening 56. Theresilient material 55 may be applied to surfaces of the drum outside ofthe flutes 50, for example, over the entire roll face of the drum. Inanother embodiment, the entire drum (e.g., drums 20-24) may beconstructed of the resilient material 55. In another embodiment, theresilient material 55 is provided over less than the entire flute 50;for example, a seat of resilient material may be provided in asub-section of a flute (e.g., as described with respect to FIGS. 4-8).Such a resilient material 55 may be used with any type of drum based onthe system requirements, including but not limited to a wrapping drum,MR drum, roll hand, etc.

In accordance with aspects herein, the resilient material 55 comprises amaterial that is softer (i.e., has a lower hardness) than the materialof the outer casing 6 of the cartridge unit 70. For example, the outercasing 6 may be composed of a metal or metal alloy and the resilientmaterial 55 may be composed of a plastic or rubber material. The outercasing 6 may be composed of an aluminum alloy and the resilient material55 may be composed of polyoxymethylene (POM, Delrin, etc.), althoughembodiments are not limited to these materials and any suitablematerials may be used.

The resilient material 55 facilitates handling the cartridge units 70during the speeds that are involved with the rotating drums during theautomated manufacture of electronic vapor devices 60 as describedherein. In particular, the yieldable nature of the resilient material 55promotes a more complete seal of the cartridge unit 70 at the vacuumport in a flute, which enhances the vacuum retention force applied tothe cartridge unit 70 in the flute. Such arrangement assures retentionof articles on the flutes even at higher production speeds and/or withheavier, larger articles.

The cartridge unit 70 of an electronic vapor device 60 as describedherein is more rigid and heavier than components of similar conventionalarticles. As a result, the metal flutes that are typically used inrotating drums in the production of conventional articles are ill-suitedfor handling the cartridge unit 70. For example, conventional articlesthat are lightweight and constructed of paper may experience slight,temporary deformation inside a metal flute of a rotating drum. Thisdeformation causes the conventional article to cover the entire vacuumport, which leads to a suitable retention force for holding the articlein the flute. On the other hand, the cartridge unit 70, owing to itsincreased rigidity and weight, experiences much less deformation or nodeformation at all in the flute of a rotating drum. Therefore, accordingto aspects herein, the surface of the flute is provided with theresilient material 55 that yields under the force of the cartridge unit70. The yielding nature of the resilient material 55 permits thecartridge unit 70 to press into the resilient material 55 and morecompletely cover the opening 56 and vacuum port 52, which provides agreater vacuum retention force on the cartridge unit 70 compared to thesituation where a resilient material is not used.

FIG. 3 shows aspects of a system 200 for the automated applying oflabels to electronic vapor devices in accordance with an exampleembodiment. The system 200 may be, for example, part of a tippingmachine utilized in the manufacture of electronic vapor device 60. Asdescribed herein, a label or wrapper may be applied to the exteriorsurface of the casing 6 of the first section (i.e., cartridge unit) 70to provide a desired aesthetic appearance and/or tactile feel to theelectronic vapor device 60. The system 200 may be part of an automatedassembly path as disclosed in U.S. application Ser. No. 14/686,431,filed concurrently herewith, the entire contents of which are expresslyincorporated herein by reference. The system may include aspects ofmachinery described in U.S. Pat. No. 5,024,242, the entire contents ofwhich are expressly incorporated herein by reference.

In example embodiments, the system 200 may be used to perform step 15 asdescribed with respect to FIG. 2a . In such an implementation, thesystem 200 may include an accumulator 202 that receives and holds aplurality of cartridge units 70 after they have undergone processing ofsteps 12-14 as described with respect to FIG. 2a . The accumulator 202functions as a buffer between the machinery that performs step 14 andthat of step 15. The accumulator 202 may comprise, for example, azig-zag or S-shaped pathway through which the cartridge units 70 travelbetween an accumulator inlet and an accumulator outlet 203. Theaccumulator inlet may be vertically higher than the accumulator outlet203 such that the cartridge units 70 travel through the accumulator viagravity. The accumulator 202 may be sized to receive cartridge units atthe accumulator inlet at a faster rate than cartridge units are releasedat the accumulator outlet 203. In this manner, the accumulator 202provides a buffer that compensates for empty slots in the procession,e.g., cartridge units that were ejected from the procession based on theinspection step or missing in the procession as a result of inconsistentloading. A sensor 204, such as a photo eye or similar, may be arrangedat the accumulator 202 to determine whether the amount of cartridgeunits 70 in the accumulator 202 exceeds a threshold. The sensor 204 maybe operatively connected to a controller of the system 200. When thesensor 204 communicates to the controller that the level of cartridgeunits 70 in the accumulator 202 falls below the threshold, thecontroller may temporarily stop the drums downstream of the accumulator202, i.e., to pause the labeling operation. This pausing permitscartridge units 70 to accumulate in the accumulator 202 since theupstream equipment may continue to process and deliver cartridge units70 to the accumulator 202. The sensor 204 detects when a sufficientnumber of cartridge units 70 has accumulated in the accumulator 202(i.e., exceeds the threshold), at which time the controller, based onthe signal from the sensor 204, automatically re-starts the drums ofsystem 200 to resume the labeling operation.

In example embodiments, a transfer drum 206 with flutes 50 around itsouter perimeter receives cartridge units 70 from the accumulator outlet203. The transfer drum 206 may be similar to the drums 20-24 describedwith respect to FIG. 2b . For example, each flute 50 of the transferdrum 206 is sized to receive a single cartridge unit 70. Each flute mayalso be provided with a resilient material 55 for contacting thecartridge unit 70. Each flute 50 may also have at least one aperture(such as port 52 and opening 56) that is configured to selectivelycommunicate a vacuum force to a cartridge unit seated in the flute 50,i.e., for keeping the cartridge unit 70 seated in the flute 50.

In example embodiments, the system is arranged such that rotation of thedrum 206 moves an empty flute 50 past and under the accumulator outlet203. Gravity pulls a cartridge unit 70 at the accumulator outlet 203into the empty flute 50. In addition to or alternatively to gravity, airpressure and/or a positive force applied by a wheel or belt may be usedto move the cartridge unit 70 at the accumulator outlet 203 into theempty flute 50. Vacuum may also be selectively applied to the flute 50to assist in pulling the cartridge unit 70 from the accumulator outlet203 into the empty flute 50. As the drum 206 continues to rotate, thetrailing wall of the flute 50 strips the cartridge unit 70 from theaccumulator outlet 203. Vacuum may be selectively applied to the flute50 to maintain the cartridge unit 70 in the flute 50 until rotation ofthe drum 206 brings the cartridge unit to the next rotating drum 100.

At location 210, the cartridge units 70 are transferred from thetransfer drum 206 to a drum 100, which rotates in a direction oppositethe rotation of the drum 206. Each cartridge unit 70 is held in arespective seat 115 on the drum 100 as described in greater detailherein with respect to FIGS. 4 and 5. A tagging drum 215 is situatedadjacent drum 100 and rotates in a clockwise direction. In exampleembodiments, the tagging drum 215 carries a plurality of labels 220 andtags a respective label 220 to a respective cartridge unit 70 atlocation 225.

At location 230, each cartridge unit 70 with its associated label 220 istransferred from the drum 100 to a rolling drum 235, which rotates in aclockwise direction. Rolling drum 235 conveys each cartridge unit 70 andits associated label 220 into contact with belt 240. The belt 240 movesin a same direction as an adjacent portion of the surface of the rollingdrum 235 but at a slightly slower speed than the rotation of the rollingdrum 235, the speed difference between the belt 240 and the rolling drum235 causing the cartridge unit 70 to rotate in a direction that causeslabel 220 to wrap itself around the exterior surface of the cartridgeunit 70. After the wrapping operation, the labeled cartridge units 70are transferred from the rolling drum 235 to a downstream transfer drum245 for transfer to another station for further processing, e.g.,connecting the cartridge unit 70 to a second section 72 (e.g., asdescribed at step 16 of FIG. 2a ).

In example embodiments, an additional pressing roller 246 may beprovided adjacent to drum 100 at a location after the label is tagged tothe cartridge unit 70 and before the cartridge unit 70 is transferred tothe rolling drum 235. The pressing roller 246 may be structured andarranged to press an unsecured leading edge 305 (shown in FIG. 7a ) ofthe label 220 to the outer surface of the cartridge unit 70 prior to thecartridge unit 70 being passed to the rolling drum 235.

In further embodiments, the tagging and rolling may be performed on asingle drum. For example, a cartridge unit 70 carried in a flute of adrum may be tagged with a label 200 at a first rotational location ofthe drum, and the label 200 may be rolled around the cartridge unit 70while the cartridge unit is at a second rotational location of the samedrum.

The transfer of the cartridge units 70 from one drum to another insystem 200 may be achieved using drum-to-drum transfer techniquesdescribed with respect to FIGS. 2b-d . The flutes of one or more of thedrums in the system 200 may be provided with a resilient material 55such as that described with respect to FIGS. 2c-d to facilitate safe andconsistent handling of the cartridge units 70 during high-speed rotationof the drums.

As described herein, the tagging drum 215 and the cutter 255 may be partof a tagging system that is structured and arranged to attach a label220 to a cartridge unit 70 held in seat 115. As described herein, therolling drum 235 and belt 240 may be part of a wrapping system that isstructured and arranged to wrap the label 220 around the cartridge unit70.

Still referring to FIG. 3, in aspects described herein the label 220comprises an individual piece of paper or the like that is cut from acontinuous web 250. For example, a rotating cutter 255 or the like maycut the continuous web 250 into discrete labels 220 that are held to thesurface of tagging drum 215 in a conventional manner by a vacuum. Aheater 256, such as a hot air blower, heat plate, radiative element,etc., may be used to heat the web 250 to increase the tackiness of theadhesive prior to tagging.

In example embodiments, a first side 260 of the continuous web 250 has apressure sensitive adhesive thereon, and a second side 265 of thecontinuous web 250 has no adhesive. The pressure sensitive adhesive maybe pre-applied to the continuous web 250 and covered with a backingsheet 270. For example, the continuous web 250 may be provided by aspool 275 with the adhesive and backing sheet 270 already thereon. Thesystem 200 may be structured and arranged to unwind the continuous web250 from the spool 275 and then peel the backing sheet 270 from thecontinuous web 250 to expose the pre-applied adhesive prior to thecontinuous web 250 coming into contact with the tagging drum 215. Theseparated backing sheet 270 may be moved away from the continuous web250 using an air blower or the like. In example embodiments, the spool275 is fixed to an E-shaft, and the RPM of the E-shaft may be controlled(e.g., selectively varied) to register (e.g., align) a printed logo on alabel with a position on the cartridge unit 70 via an eye.

The use of a pre-applied pressure sensitive adhesive (e.g., apeel-and-stick adhesive) on labels 220 provides an advantage overconventional tipping machines that apply an adhesive or a solvent to thetipping paper. In particular, the application of an adhesive or asolvent to the tipping paper requires a transient time at startup of thetipping machine during which some tags are not useable. This leads towaste. The pre-applied pressure sensitive adhesive used in aspectsdescribed herein, however, does not require such a transient time duringstartup, and thus reduces waste when compared to a conventional tippingmachine. Implementations as described herein can pause in process ofwrapping articles and restart with no loss of product; program stops(e.g., due to upstream equipment) will fully utilize labeling.

FIGS. 4 and 5 show aspects of a drum 100 in accordance herewith that maybe used in manufacturing an electronic vapor device 60 described withrespect to FIGS. 1a-b . Drum 100 is described herein with respect to alabeling process during the manufacture of an electronic vapor device.In particular, drum 100 is described herein as a rotational tipping drumthat carries a cartridge unit 70 of an electronic vapor device 60 whilea label is tagged on the outer casing 6 of the cartridge unit 70. Inthis regard, the drum 100 may be used as drum 100 in the system of FIG.3. It is to be understood, however, that drum 100 is not limited to useas a tipping drum, and instead may be used as one or more other drums inan electronic vapor device manufacturing system. Further, it isunderstood that drum 100 is not limited to use with manufacturingelectronic vapor devices, but rather that drum 100 may also be used inmanufacturing other articles.

As shown in FIGS. 4 and 5, drum 100 includes a cylindrical body with aplurality of flutes 105 (e.g., pockets, groove, etc.) spaced apartacross its roll face 110. The drum 100, including the roll face 110 andthe interior surfaces of the flutes 105, may be composed of suitablematerial, including but not limited to a metal or metal alloy such assteel. In example embodiments, a seat 115 is located in a pocket 117 ofeach flute 105, and each seat 115 includes a seat groove 120 that issized and shaped to hold a cartridge unit 70.

In accordance with aspects described herein, a portion of the seat 115that comes into direct contact with the casing 6 of the cartridge unit70 is composed of a material that is more structurally yielding (e.g.,softer) than the material of the casing 6. For example, as describedabove, the casing 6 may be composed of metal or metal alloy tofacilitate precise machining of the casing 6 and inlet 44. In suchembodiments, the seat 115 may be composed of a material that is softer(i.e., has a lower hardness) than the metal or metal alloy material ofthe casing 6. For example, the casing 6 may be composed of a metal ormetal alloy and the seat 115 may be composed of a plastic. The casing 6may be composed of an aluminum alloy and the seat 115 may be composed ofpolyoxymethylene (POM, Delrin, etc.). In this manner, the seat 115 maycorrespond to the resilient material 55 described with respect to FIGS.2c -d.

FIG. 5 shows an exploded view of a number of seats 115 relative to thedrum 100. In aspects described herein, each seat 115 is resilientlybiased against the drum 100. For example, as shown in FIGS. 5 and 7, oneor more springs 125 are positioned between the bottom of the seat 115and the drum 100. When the seat 115 is seated in the pocket 117 of aflute 105, the springs 125 resiliently bias the seat 115 in an outwarddirection along a radial axis of the drum 100. A limit stop structure133 (see FIG. 7) may be used to limit the outward movement of the seat115 (e.g., radially outward relative to the drum). The springs 125permit the seat 115 to be pushed inward along a radial axis of the drum115 when a sufficient force is applied to the seat 115 that overcomesthe spring force of the springs 125. The pocket 117 of the flute 105 maybe appropriately sized to accommodate the springs 125 and a predefinedamount of inward movement of the seat 115 when the seat 115 ispositioned in the pocket 117. Because the seat 115 may include (e.g.covering layer) or be formed of a material that is more structurallyyielding than the casing 6 of the cartridge unit 70 and/or be configuredto resiliently travel in (e.g., retract) and out (e.g., protract) of acorresponding pocket 117, the seat 115 may be regarded as being“tractably-mounted” as a retractable part and/or protractable part in acorresponding pocket 117.

With continued reference to FIGS. 4 and 5, each seat 115 may be providedwith one or more holes 130 that are structured and arranged to provide avacuum to hold a cartridge unit 70 in the seat groove 120. The use ofvacuum to hold objects to drums in manufacturing is understood by thoseof skill in the art, such that further explanation is not necessary. Ina particular embodiment shown in FIG. 7a , the hole 130 is aligned withthe spring 125, and a tube or similar structure located within theperimeter of the spring 125 provides a vacuum communication path betweenthe vacuum source of the drum and the hole 130 as described in greaterdetail herein. In another embodiment shown in FIG. 7b , the holes 130are offset from the springs 125.

Still referring to FIGS. 4 and 5, each seat 115 may be bounded in theflute 105 on one side by a stop 135 and on another side by a pusher 140.The stop 135 may be a structural element that is non-moveably connectedto the drum 100 or may be an integral portion of the drum 100. The stop135 may be a bar or block that sits in a portion of the flute 105 and isaffixed to the drum 100 by a threaded connector such as a screw or bolt.In aspects described herein, the pusher 140 is a structural element thatis held within the flute 105 and is translatable in the flute 105 alongthe longitudinal axis of the flute 105. In example embodiments, thepusher 140 is configured to be selectively urged toward the seat 115. Inthis manner, when a cartridge unit 70 is situated in the seat groove 120of a seat 115, the pusher 140 may contact the cartridge unit 70 andexert an axial force on the cartridge unit 70 that pushes the cartridgeunit 70 against the stop 135. A swash plate 150 or similar mechanism maybe structured and arranged to selectively act on the pusher 140 based onthe rotational position of the drum in order to selectively apply theaxial force to the cartridge unit 70 at certain times during therotation of drum 100, e.g., during tagging as described herein. In thismanner, the cartridge unit 70 may be held steady in the seat 115 duringa manufacturing step, such as tagging a label to the casing 6 of thecartridge unit 70.

In example embodiments, the seat 115, the stop 135, the pusher 140, andthe swash plate 150 are structured and arranged such that the pusher 140pushing the cartridge unit 70 against the stop 135 causes the cartridgeunit 70 to be aligned with a label that is being applied to (e.g.,tagged to) the cartridge unit 70. The stop 135 is at a known location onthe drum, such that pushing the cartridge unit 70 against the stop 135places the cartridge unit 70 at a known location. In this manner,pushing the cartridge unit 70 against the stop 130 is used to repeatedlyand consistently place each cartridge unit 70 in a known location at thetime of tagging. For example, the swash plate 150 may be configured toapply a force against the pusher 140 to cause the pusher 140 to urge thecartridge unit 70 against the stop 135 at a time just prior to when thelabel is applied to (tagged to) the cartridge unit 70 and to maintainthis force during the time period while the label is applied to thecartridge unit 70. The swash plate 50 may further be configured to notapply the force to the pusher 140 when the cartridge unit 70 is beingreceived in the seat 115 (e.g., prior to tagging) and also when thecartridge unit 70 is being moved out of the seat 115 to another drum(e.g., after tagging).

FIGS. 6 and 7 a show aspects of applying a label 220 to a casing 6 of acartridge unit 70 in accordance with an example embodiment. As shown inFIGS. 6 and 7 a, a cartridge unit 70 is held in a seat 115 in drum 100when the tagging drum 215 brings the first side 260 (e.g., the adhesiveside) of the label 220 into contact with the exterior surface of thecartridge unit 70, e.g., at location 225 of FIG. 3. In exampleembodiments, the rotation of the tagging drum 215 and the drum 100 arecontrolled such that an intermediate portion 300 of the label 220contacts the cartridge unit 70. More specifically, in an exampleembodiment, the intermediate portion 300 is between the leading edge 305of the label 220 and the trailing edge 310 of the label 220, and closerto the leading edge 305 than the trailing edge 310.

As shown in FIG. 7a , the contact location at the intermediate portion300 is a length “d” away from the leading edge 305. In an exampleembodiment, the length “d” is about 1 mm, although other lengths may beused. Making the contact point at an intermediate location 300 insteadof the leading edge 305 yields improved tagging and rolling of the label220 on the relatively hard and unyielding outer surface of the cartridgeunit 70 (that is constructed, for example, of aluminum alloy) ascompared to a tagging operation on a conventional article that has arelatively soft outer surface (that is constructed, for example, ofpaper, filter material, or the like) that yields at the locus ofapplication during the tagging process.

With continued reference to FIG. 7a , the seat 115 may include or beconnected to a post 400 having an internal channel 405. A first end ofthe channel 405 communicates with the hole 130 for providing vacuumforce at the seat. A second end of the channel 405, opposite the firstend, communicates with another channel 410 that is formed in the drum100 and which is in communication with a vacuum source 415 associatedwith the drum 100. In this manner, the vacuum source 415 associated withthe drum 100 may be used to selectively apply vacuum force at the seatvia the channel 405 and hole 130. In an example implementation, the post400 and channel 405 are embodied as a hollow cylindrical tube, althoughany suitable shape may be used.

In example embodiments, the post 400 is configured to be axiallymoveable inside the channel 410 as indicated by arrow 416. The post 400may be sized relative to the channel 410 such that the lower end of thepost 400 remains the channel 410 through the entire range of motion ofthe seat 115. In this manner, vacuum may be maintained at the seat 115when the seat 115 moves axially against the spring 125.

In aspects, the post 400 may be located inside the spring 125. Forexample, the spring 125 may have the shape of a helical spring, and thepost 400 may be centrally located within the spring and substantiallycoaxial with a longitudinal axis of the spring. More than one post 400and spring 125 may be used for each seat 155. For example, as shown inFIG. 5, each seat 115 may be associated with two springs 125 and posts400.

FIG. 7b shows a cross section of an example implementation of drum 100of FIG. 4. As shown in FIG. 7b , the drum 100 includes a seat 115 with aseat groove 120 that is sized to hold a cartridge unit 70. As describedherein, a swash plate 150 and a pusher 140 may be arranged toselectively push a cartridge unit 70 against the stop 135 during a labeltagging process. In example embodiments, a screw 145 is threaded intothe end of the pusher 140, with the screw 145 extending through a holein the swash plate 150 without being threadedly engaged to the swashplate 150. In aspects, a spring 900 surrounds the screw 145 and contactsthe pusher 140 and the swash plate 150. In operation, a cam follower orsimilar mechanism pushes a portion of the swash plate 150 inward, whichapplies an axial force to the spring 900 and the pusher 140 that, inturn, exerts an axial force on a cartridge unit 70 in the seat 115. Thecomponents of the system may be structured and arranged such that theaxial force applied against the cartridge unit 70 in this manner issufficient to hold the cartridge unit 70 against the stop 135 andprevent the cartridge unit 70 from rotating in the seat 115 when thelabel is applied to the cartridge unit 70. The spring 900 advantageouslyprevents binding during this pushing operation so that the pusher 140will not damage the cartridge unit 70 during the pushing. In exampleembodiments, one or more circumferential springs 905 may be arrangedaround the pushers 140 to prevent the pushers 140 from pivoting out ofthe respective flutes of the drum.

With continued reference to FIG. 7b , the limit stop structure 133 maycomprise a shoulder bolt or the like. A position of the shoulder boltmay be adjusted, e.g., by screwing the bolt further in or further out ofthe body of the drum 100, to adjust an outer limit of travel (e.g.,translational motion) of the seat 115 relative to the body of the drum100. The extent of travel 137 of the seat 115 relative to the body 100of the drum may be set to any desired value, such as 1.5 mm or similar.

As described herein, the seat 115 may include vacuum holes 130 that arein communication with a vacuum source in the body of the drum 100. Asshown in FIG. 7b , the vacuum holes 130 may be offset from (e.g., notcoincident) with the springs 125. The vacuum holes 130 may be incommunication with vacuum holes 410′ in the body of the drum 100 andthus used to selectively apply vacuum force at the seat groove 120 forretaining a cartridge unit 70 in the seat groove 120.

FIG. 8 shows aspects of another drum 100′ in accordance with an exampleembodiment. Drum 100′ is similar to drum 100 in that it includes acylindrical body with a plurality of grooves spaced apart across itsroll face. The drum 100′, including the roll face and the interiorsurfaces of the grooves, is composed of a metal or metal alloy, such assteel. The drum 100 described with respect to FIGS. 4 and 5 includes asingle seat 115 centered in each groove. The drum 100′ shown in FIG. 8includes two seats 115 a and 115 b in each groove. In exampleembodiments, the seats 115 a and 115 b are located in pockets of thegroove, and each seat 115 a and 115 b includes a seat groove that issized and shaped to hold a cartridge unit 70 a-b. In this manner, eachflute 105 may hold two cartridge units 70 a-b instead of one.Accordingly, using the drum 100′ in system 200 provides the ability toproduce twice as many labeled cartridge units when operating at a samespeed as with drum 100, or to produce a same amount of labeled cartridgeunits when operating at half the speed as with drum 100.

Still referring to FIG. 8, the drum 100′ includes a stop 800 between thetwo seats 115 a and 115 b. In aspects, a first pusher 140 a is adjacentto the seat 115 a in the groove and is selectively moveable inwardtoward the stop 800. Similarly, a second pusher 140 b is adjacent theseat 115 b in the groove and is selectively moveable inward toward thestop 800. In example embodiments, the pushers 140 a and 140 b areconfigured with swash plates 150 a-b to selectively apply an axial forceto the respective cartridge units 70 a-b that pushes the respectivecartridge units 70 a-b against the stop 800 to hold the cartridge units70 a-b snug, e.g., when a label 220 is being tagged to each cartridgeunit 70 a-b. The swash plates 150 a-b may operate in a manner similar toswash plate 150 described with respect to FIG. 4. The swash plates 150a-b, pushers 140 a-b, and stop 800 may be structured and arranged toalign the cartridge units 70 a-b with respective labels at the time oftagging the labels to the cartridge units, e.g., in a manner similar tothat described with respect to FIG. 4. The drum 100′ may also includerespective circumferential springs 905 a and 905 b.

FIG. 9 shows a drum 100″ in accordance with aspects herein. The drum100″ is similar to drum 100 of FIG. 4, and includes two circumferentialsprings 905 and 905′ surrounding the pushers 140.

The particulars shown herein are by way of example and for purposes ofillustrative discussion only and are presented in the cause of providingwhat is believed to be the most useful and readily understooddescription of the principles and conceptual aspects. In this regard, noattempt is made to show structural details in more detail than isnecessary for fundamental understanding, the description taken with thedrawings making apparent to those skilled in the art how the severalforms disclosed herein may be embodied in practice.

It is noted that the foregoing examples have been provided merely forthe purpose of explanation and are in no way to be construed aslimiting. While aspects have been described with reference to exampleembodiments, it is understood that the words which have been used hereinare words of description and illustration, rather than words oflimitation. Changes may be made, within the purview of the appendedclaims, as presently stated and as amended, without departing from thescope and spirit of the present disclosure in its aspects. Althoughaspects have been described herein with reference to particular means,materials, and/or embodiments, the present disclosure is not intended tobe limited to the particulars disclosed herein; rather, it extends toall functionally equivalent structures, methods and uses, such as arewithin the scope of the appended claims.

The invention claimed is:
 1. A rotatable drum for automatedmanufacturing of e-vapor devices, comprising: a drum body including aroll face defining a plurality of pockets therein and a channel withineach of the plurality of pockets; and a first seat structure configuredas a first retractable part in each of the plurality of pockets of thedrum body that moves axially within the channel, the first seatstructure including a first outer surface and an opposing first innersurface, the first outer surface defining a first groove therein andfacing outward from the drum body, the first groove configured toreceive and hold a first casing of the e-vapor devices.
 2. The rotatabledrum of claim 1, wherein the first seat structure is composed of aplastic, and the first casing is composed of a metal or a metal alloy.3. The rotatable drum of claim 2, wherein the plastic ispolyoxymethylene, and the metal alloy is an aluminum alloy.
 4. Therotatable drum of claim 1, further comprising: a resilient elementdisposed between the first inner surface of the first seat structure anda base of a corresponding one of the plurality of pockets, the firstseat structure being moveable along a radial direction of the drum bodyvia the resilient element, the resilient element configured to bias thefirst seat structure outward from the drum body along the radialdirection.
 5. The rotatable drum of claim 1, further comprising: apusher structure moveably arranged in each of the plurality of pockets,the pusher structure configured to apply a lateral force to a side ofthe first casing in the first groove of the first seat structure.
 6. Therotatable drum of claim 5, further comprising: a spring orientedlongitudinally in each of the plurality of pockets, the springconfigured to bias the pusher structure toward the first seat structure.7. The rotatable drum of claim 1, further comprising: a second seatstructure configured as a second retractable part in each of theplurality of pockets of the drum body, the second seat structureincluding a second outer surface and an opposing second inner surface,the second outer surface defining a second groove therein and facingoutward from the drum body, the second groove configured to receive andhold a second casing of the e-vapor devices.
 8. The rotatable drum ofclaim 7, further comprising: a stop structure between the first seatstructure and the second seat structure; a first pusher structuremoveably arranged in each of the plurality of pockets, the first seatstructure being between the first pusher structure and the stopstructure; and a second pusher structure moveably arranged in each ofthe plurality of pockets, the second seat structure being between thestop structure and the second pusher structure.
 9. The rotatable drum ofclaim 8, wherein: the first pusher structure is configured to apply alateral force to a side of the first casing in the first groove of thefirst seat structure so as to push the first casing against the stopstructure; and the second pusher structure is configured to apply alateral force to a side of the second casing in the second groove of thesecond seat structure so as to push the second casing against the stopstructure.
 10. The rotatable drum of claim 1, wherein the first seatstructure includes a post extending from the first inner surface andconfigured to remain within the channel during an entire range of motionof the first seat structure.
 11. A system for automated manufacturing ofe-vapor devices, comprising: a rotatable drum including a drum bodyincluding a roll face defining a plurality of pockets therein and achannel within each of the plurality of pockets, and a seat structureconfigured as a retractable part in each of the plurality of pockets ofthe drum body that moves axially within the channel, the seat structureincluding an outer surface and an opposing inner surface, the outersurface defining a groove therein and facing outward from the drum body,the groove configured to receive and hold a casing of the e-vapordevices; a tagging assembly configured to attach a label to the casingin the groove of the seat structure; and a wrapping assembly configuredto wrap the label around the casing.
 12. The system of claim 11, whereinthe rotatable drum further includes a resilient element disposed betweenthe inner surface of the seat structure and a base of a correspondingone of the plurality of pockets, the seat structure being moveable alonga radial direction of the drum body via the resilient element, theresilient element configured to bias the seat structure outward from thedrum body along the radial direction.
 13. The system of claim 11,wherein the tagging assembly is configured to initially attach a centralportion of the label to an outer surface of the casing such that aleading edge and a trailing edge of the label do not contact the casingwhen the label is initially attached to the casing.
 14. The system ofclaim 13, wherein the tagging assembly is configured to initially attachthe central portion of the label to the outer surface of the casing suchthat the central portion is closer to the leading edge than the trailingedge.
 15. The system of claim 11, wherein the tagging assembly isconfigured to remove a backing sheet from a continuous web to expose apressure sensitive adhesive and to cut the label from the continuousweb.
 16. A method of automated manufacturing of e-vapor devices,comprising: receiving and holding a casing of the e-vapor devices in aseat structure that is configured as a retractable part in a pocket of arotating drum, the rotating drum including a roll face defining thepocket therein and a channel within the pocket, the seat structureconfigured to move axially within the channel; tagging a label to thecasing while the casing is held in the seat structure; and wrapping thelabel around the casing.
 17. The method of claim 16, wherein: the seatstructure is moveable along a radial direction of the rotating drum; andthe seat structure is biased outward from the rotating drum along theradial direction.
 18. The method of claim 16, wherein the taggingincludes initially attaching a central portion of the label to an outersurface of the casing such that a leading edge and a trailing edge ofthe label do not contact the casing when the label is initially taggedto the casing.
 19. The method of claim 16, further comprising: removinga backing sheet from a continuous web to expose a pressure sensitiveadhesive; and cutting the label from the continuous web prior to thetagging.
 20. The method of claim 16, further comprising: insertingcomponents corresponding to one of the e-vapor devices in the casingafter the wrapping.